BS in Physics and Astronomy

4 Years On Campus Bachelors Program

Emory University

Program Overview

The Bachelor of Science in Physics and Astronomy at Emory University combines a rigorous physics curriculum with specialised study of astrophysics, preparing students to explore the physical laws governing everything from subatomic particles to the universe. Designed for students considering graduate study or careers in astronomy, astrophysics and scientific research, the program builds strong mathematical, computational and experimental skills through advanced coursework and laboratory experience.

Curriculum Structure

First Year: Students establish their mathematical and scientific foundations through Physics I (PHYS 151), Physics II (PHYS 152), Calculus II (MATH 112) and Multivariable Calculus (MATH 211). Students are also encouraged to take Introduction to Astronomy (PHYS 116) during their first two years to develop an understanding of astronomical phenomena and observational science.

Second Year: Students progress to more advanced scientific concepts through Differential Equations (MATH 212), Mathematical Methods for Science and Engineering (PHYS 220) and Modern Physics (PHYS 253). Computational Modeling (PHYS 212) introduces computational approaches to analysing physical systems, while Electricity and Magnetism (PHYS 365) develops an understanding of electromagnetic fields and their applications.

Third Year: Students deepen their understanding of fundamental physics through Classical Mechanics (PHYS 361) and Thermodynamics and Statistical Mechanics (PHYS 421). They also begin specialised astrophysics coursework through Astrophysics I and II (PHYS 311 and PHYS 312), applying physical and mathematical principles to stars, galaxies and other astronomical systems.

Fourth Year: Students advance their theoretical understanding through Quantum Mechanics (PHYS 461) and strengthen their practical skills through Advanced Undergraduate Laboratory (PHYS 444W). Continued astrophysics coursework allows students to integrate their knowledge of physics, computational analysis and astronomical phenomena in preparation for graduate research or scientific careers.

Focus Areas

Classical mechanics, quantum mechanics, electromagnetism, thermodynamics, statistical mechanics, astrophysics, computational modelling, mathematical physics, experimental physics and astronomical research.

Learning Outcomes

Scientific Knowledge: Apply fundamental physics principles and advanced mathematics to understand physical and astronomical systems.
Computational Skills: Use computational modelling to analyse and solve complex scientific problems.
Experimental Skills: Conduct laboratory investigations, make scientific measurements and interpret experimental results.
Astrophysics Specialisation: Apply physics concepts to the study of stars, galaxies and other astronomical phenomena.
Research Preparation: Develop analytical reasoning and scientific problem-solving skills for advanced study and research.

Professional Alignment (Accreditation)

The program develops the mathematical, computational and experimental competencies relevant to scientific research and technical careers. The official program information does not identify a specific professional accreditation for the B.S. in Physics and Astronomy.

Reputation (Employability Rankings)

Emory University's Department of Physics supports undergraduate learning through faculty-led research in areas including biophysics, condensed matter, optics and theoretical physics. The university's program information does not specify a dedicated employability ranking or verified graduate employment rate for this particular degree.

Experiential Learning (Research, Projects, Internships etc.)

Emory University combines theoretical physics education with computational modelling, advanced laboratory work and opportunities to participate in faculty-led research. Students can build practical skills in experimental investigation and scientific data analysis while exploring research areas that connect physics with astronomy, materials, optics and biophysics.

Key experiential learning opportunities include:

Advanced Undergraduate Laboratory: Develop experimental techniques, scientific measurement skills and the ability to interpret results through PHYS 444W.
Computational Modelling: Apply computational methods to investigate physical systems and solve scientific problems through PHYS 212.
Astrophysics Coursework: Explore astronomical phenomena through PHYS 311 and PHYS 312, connecting theoretical physics with the study of stars, galaxies and the wider universe.
Faculty-Led Research: Explore undergraduate research opportunities in biophysics, soft condensed matter, condensed matter and optics, and theoretical physics.
Emory Observatory: Discover observational astronomy and opportunities to engage with astronomical research and education through the university's observatory.
Departmental Research Environment: Learn from full-time physics faculty and explore research interests that may support future graduate study and specialised scientific careers.
Academic Advising: Work with departmental advisers to plan course sequences, identify research opportunities and prepare for graduate education.

Progression & Future Opportunities

The B.S. in Physics and Astronomy prepares students for advanced study and careers requiring strong scientific, mathematical and computational skills. Graduates can explore opportunities in research laboratories, astronomy-related research, scientific computing and technical industries, with further qualifications often needed for independent research and academic positions.

Potential career roles include:

Astrophysics Research Assistant: Support investigations into stars, galaxies and other astronomical phenomena.
Physics Research Assistant: Assist with experiments, theoretical investigations and scientific data analysis.
Computational Modelling Analyst: Apply programming and mathematical techniques to simulate physical systems.
Scientific Laboratory Technician: Support experiments, operate laboratory equipment and analyse scientific measurements.

Students can strengthen their professional preparation through the following opportunities:

Career Services: Emory's career services support students with career exploration, job-search preparation, resume development, interview skills and employer connections.
Research Experience: Faculty-led research can help students build scientific experience, establish academic mentoring relationships and prepare for graduate applications.
Astronomy and Physics Networks: Departmental research groups and the Emory Observatory provide opportunities to explore scientific interests and connect academic study with research and astronomy education.
Internships and Employment: Students can explore relevant opportunities through university career resources. A degree-specific internship requirement or guaranteed placement is not stated in the program information.
Employment Statistics and Salaries: A verified graduate employment rate or salary figure specific to this program is not published in the official information reviewed.
Professional Accreditation: The university does not specify a separate professional accreditation for this degree. Its value lies in the scientific and quantitative skills it develops rather than a stated professional licence.
Graduation Outcomes: The curriculum supports preparation for graduate study in physics, astrophysics and related scientific fields, as well as technical careers that value analytical and computational expertise.

Further Academic Progression: Graduates can pursue an M.S. or Ph.D. in Physics, Astronomy or Astrophysics, depending on the admission requirements of the chosen institution. Related options include computational physics, applied mathematics, materials science and other interdisciplinary research fields. Students interested in medicine, law or other professional degrees should separately fulfil the prerequisites for their intended programs.